Clinical Neuroscience & Computational Brain Imaging

Dr. Daniel Halls

Medically trained doctor and Clinical Neuroscientist bridging clinical medicine, computational modelling, and high-resolution MRI to map the structural and functional architecture of the human brain.

Dr. Daniel Halls

Research

My work operates at the intersection of psychological medicine, computational neuroimaging, and behavioural data analysis. I am interested in moving beyond reductive models of mental health by using multimodal data and phenomenological experience to improve our understanding of mental health conditions. My work as a Research Fellow at the University of Nottingham is currently focused on focused ultrasound stimulation and diffusion MRI methods development.

I am the developer and maintainer of NFACT.

Previously, I completed my PhD in Psychological Medicine at King’s College London, investigating how socio-emotional processing, cognitive functions, and autistic traits relate to underlying neurobiology in eating disorders (specifically Anorexia Nervosa) through resting-state fMRI cyclic connectivity, diffusion MRI, and machine learning.

Imaging

Thalamic Radiations

Thalamic Radiations

Subcortical white matter pathway mapping and signal decomposition in diffusion MRI to dissect thalamocortical connectivity using NFACT.

Resting-State fMRI

Resting-State fMRI

Macro-scale functional network analysis and rs-fMRI connectivity modelling.

White Matter Tractography

White Matter Tractography

Data-driven tractography of human brain pathways via NFACT.

Focus areas

  1. Computational Psychiatry

    Linking longitudinal biopsychosocial profiles, autistic traits, and socio-emotional task performance to neuroanatomical markers in clinical populations. Moving away from reductivist mental health models.

  2. dMRI Signal Decomposition

    Developing computational algorithms to decompose multi-shell diffusion tensor and spherical deconvolution signals into underlying tissue components.

  3. Functional Connectomics

    Constructing dynamic functional connectivity models to characterise functional brain states and network flexibility.

  4. Machine Learning & Analytics

    Applying Bayesian models, cluster analysis, and supervised machine learning pipelines to structural and functional neuroimaging repositories.

Methods

  • Advanced data analytics in Python
  • Pipeline development
  • Task fMRI modelling
  • rsfMRI connectomics
  • FSL & SPM
  • FreeSurfer
  • Diffusion MRI
  • Bayesian modelling
  • Deep learning & machine learning
  • Docker & HPC Slurm